Kermack and McKendrick Models on a Two-Scale Network and Connections to the Boltzmann Equations

Luckhaus, Stephan; Stevens, Angela

Research article (book contribution) | Peer reviewed

Abstract

The Kermack–McKendrick models are often misinterpreted solely as the well-known SIR-ODE-system for the dynamics of susceptibles, infectious and removed during an epidemic. But McKendrick’s equations are by far more general. Here we explain - how his systems can be adapted to cover a small world-large world scenario, where the small world has a different infection mechanism, - how they can be adapted to several variants of viruses competing, and - how even the classical Boltzmann equations can be written in McKendrick form. In the language of delay differential equations, in all three examples the delay parameter becomes multidimensional.

Details about the publication

PublisherMorel, Jean Michel; Teissier, Bernard
Book titleMathematics Going Forward. Lecture Notes in Mathematics, vol 2313 (Volume 2313)
Page range417-427
Publishing companySpringer
Place of publicationCham
Title of seriesLecture Notes in Mathematics (ISSN: 1617-9692)
StatusPublished
Release year2022
Language in which the publication is writtenEnglish
DOI10.1007/978-3-031-12244-6_29
Link to the full texthttps://link.springer.com/chapter/10.1007/978-3-031-12244-6_29#Abs1
KeywordsKermack–McKendrick models; Boltzmann equations; delay parameter

Authors from the University of Münster

Stevens, Angela
Professur für Angewandte Analysis (Prof. Stevens)